摘要:
A defect image processing apparatus uses a normalized cross correlation to image-match a layout image (52) acquired from a design data with an image acquired by removing, from a defect image (53), the defect area portions thereof, and displays, as a result of that matching, a layout image and defect image (54) on the display device. In the displayed layout image & defect image (54), not only the layout image, the layer of which is the same as that of the defect image (53), but also a layout image of another layer is displayed superimposed on the defect image (53). This makes it easier to analyze the factor of a systematic defect having occurred due to a positional relationship with another layer.
摘要:
A defect image processing apparatus uses a normalized cross correlation to image-match a layout image (52) acquired from a design data with an image acquired by removing, from a defect image (53), the defect area portions thereof, and displays, as a result of that matching, a layout image and defect image (54) on the display device. In the displayed layout image & defect image (54), not only the layout image, the layer of which is the same as that of the defect image (53), but also a layout image of another layer is displayed superimposed on the defect image (53). This makes it easier to analyze the factor of a systematic defect having occurred due to a positional relationship with another layer.
摘要:
A semiconductor device includes an n channel conductivity type FET having a channel formation region formed in a first region on a main surface of a semiconductor substrate and a p channel conductivity type FET having a channel formation region formed in a second region of the main surface, which second region is different from the first region. An impurity concentration of a gate electrode of the n channel FET has an impurity concentration greater than an impurity concentration of the gate electrode of the p channel FET to thereby create a tensile stress in the direction of flow of a drain current in the channel forming region of the n channel FET. The tensile stress in the flow direction of the drain current in the channel forming region of the n channel FET is greater than a tensile stress in the direction of flow of a drain current in the channel forming region of the p channel FET.
摘要:
In the manufacture of a semiconductor device having a high-performance and high-reliability, a silicon nitride film 17 for self alignment, which film is formed to cover the gate electrode of a MISFET, is formed at a substrate temperature of 400° C. or greater by plasma CVD using a raw material gas including monosilane and nitrogen. A silicon nitride film 44 constituting a passivation film is formed at a substrate temperature of about 350° C. by plasma CVD using a raw material gas including monosilane, ammonia and nitrogen. The hydrogen content contained in the silicon nitride film 17 is smaller than that contained in the silicon nitride film 44, making it possible to suppress hydrogen release from the silicon nitride film 17.
摘要:
In the manufacture of a semiconductor device having a high-performance and high-reliability, a silicon nitride film 17 for self alignment, which film is formed to cover the gate electrode of a MISFET, is formed at a substrate temperature of 400° C. or greater by plasma CVD using a raw material gas including monosilane and nitrogen. A silicon nitride film 44 constituting a passivation film is formed at a substrate temperature of about 350° C. by plasma CVD using a raw material gas including monosilane, ammonia and nitrogen. The hydrogen content contained in the silicon nitride film 17 is smaller than that contained in the silicon nitride film 44, making it possible to suppress hydrogen release from the silicon nitride film 17.
摘要:
A semiconductor device has an n channel conductivity type field effect transistor having a channel formation region formed in a first region on one main surface of a semiconductor substrate and a p channel conductivity type field effect transistor having a channel formation region formed in a second region on the main surface of the semiconductor substrate, which second region is different from the first region. An internal stress generated in the channel formation region of the n channel conductivity type field effect transistor is different from an internal stress generated in the channel formation region of the p channel conductivity type field effect transistor. The internal stress generated in the channel formation region of the n channel conductivity type field effect transistor is a tensile stress, while the internal stress generated in the channel formation region of the p channel conductivity type field effect transistor is a compressive stress.
摘要:
An impurity ion of a polarity opposite to that of an impurity ion forming an n-type diffusion layer is implanted into a lower portion of the n-type diffusion region in a region, in which n-channel type MISFET is to be formed, vertically with respect to a main surface of a semiconductor to form a first p-type pocket layer. Subsequently, an impurity of a p conduction type is implanted into a region between the n-type diffusion region and the first p-type pocket layer obliquely relative to the main surface of the semiconductor substrate to form a second p-type pocket layer. In this arrangement, the concentration of the impurity ion forming the second p-type pocket layer is made higher than the concentration of the impurity ion used to form the first p-type pocket layer.
摘要:
A CVD device (100) used for depositing a silicon nitride has a structure in which a hot wall furnace (103) for thermally degrading a source gas and a chamber (101) for forming a film over a surface of a wafer (1) are separated from each other. The hot wall furnace (103) for thermally degrading the source gas is provided above the chamber (101), and a heater (104) capable of setting the inside of the furnace at a high temperature atmosphere of approximately 1200° C. is provided at the outer periphery thereof. The source gas, supplied to the hot wall furnace (103) through pipes (105) and (106), is thermally degraded in this furnace in advance, and degraded components thereof are supplied on a stage (102) of the chamber (101) to form a film on the surface of the wafer (1).
摘要:
An impurity ion of a polarity opposite to that of an impurity ion forming an n-type diffusion layer is implanted into a lower portion of the n-type diffusion region in a region, in which n-channel type MISFET is to be formed, vertically with respect to a main surface of a semiconductor to form a first p-type pocket layer. Subsequently, an impurity of a p conduction type is implanted into a region between the n-type diffusion region and the first p-type pocket layer obliquely relative to the main surface of the semiconductor substrate to form a second p-type pocket layer. In this arrangement, the concentration of the impurity ion forming the second p-type pocket layer is made higher than the concentration of the impurity ion used to form the first p-type pocket layer.
摘要:
A semiconductor device includes an n channel conductivity type FET having a channel formation region formed in a first region on a main surface of a semiconductor substrate and a p channel conductivity type FET having a channel formation region formed in a second region of the main surface, which second region is different from the first region. An impurity concentration of a gate electrode of the n channel FET has an impurity concentration greater than an impurity concentration of the gate electrode of the p channel FET to thereby create a tensile stress in the direction of flow of a drain current in the channel forming region of the n channel FET. The tensile stress in the flow direction of the drain current in the channel forming region of the n channel FET is greater than a tensile stress in the direction of flow of a drain current in the channel forming region of the p channel FET.